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| Size | Price | Stock | Quantity |
|---|---|---|---|
| 1 g | $1099 | In stock | |
| 5 g | $3148 | In stock |
Fmoc-3-(3'-Quinolyl)-L-Alanine, a specialized amino acid derivative, finds application in peptide synthesis and diverse biochemical uses. Here, we explore its key applications with elevated perplexity and burstiness:
Peptide Synthesis: Widely embraced in peptide synthesis, Fmoc-3-(3'-Quinolyl)-L-Alanine stands out for its proficiency in introducing precise functional groups. The quinolyl group, with its distinctive characteristics, serves as a gateway to exploring protein-protein interactions and peptide conformations. This attribute elevates the adaptability of synthetic peptides within the realm of research, offering unparalleled insights into molecular structures and functions.
Fluorescence-Based Assays: Leveraging the quinolyl group's fluorescence attributes, Fmoc-3-(3'-Quinolyl)-L-Alanine becomes an indispensable tool in conducting fluorescence-based assays for dissecting various biochemical processes. Its luminous properties enable seamless tracking of peptides within cellular milieus and real-time monitoring of biochemical reactions. This facet finds paramount utility in binding assays and enzyme activity evaluations, enriching our understanding of molecular interactions and cellular dynamics.
Drug Development: Pioneering advancements in drug development, Fmoc-3-(3'-Quinolyl)-L-Alanine emerges as a pivotal asset in fortifying peptide-based drug candidates. By integrating the quinolyl moiety, researchers enhance the pharmacokinetic and pharmacodynamic profiles of peptides, elevating their efficacy as therapeutic modalities. This amino acid derivative serves as a cornerstone for crafting peptides with heightened stability and biological potency, spearheading the evolution of pharmaceutical interventions.
Structural Biology: At the nexus of structural biology, Fmoc-3-(3'-Quinolyl)-L-Alanine shines as a beacon for introducing bespoke labels or probes into proteins and peptides. This groundbreaking approach facilitates in-depth exploration of protein structures and dynamics through cutting-edge techniques like nuclear magnetic resonance (NMR) and X-ray crystallography. It emerges as a potent instrument for unraveling the structural underpinnings of protein functionality and intermolecular interactions, unraveling the mysteries of biological systems.
